Abstract: A method of monitoring a plurality of turbomachines is disclosed herein. In embodiments, the method includes a fleet data system receiving first event data from a first monitoring connection system and second event data from a second monitoring connection system. The method also includes the fleet data system determining from the first event data and the second event data whether an event has occurred. The method further includes the fleet data system issuing an alert when the fleet data system has determined that the event has occurred, the alert including an event name, an event status, and a timestamp related to when the event occurred.

Abstract: A method of monitoring a plurality of turbomachines is disclosed herein. In embodiments, the method includes a fleet data system receiving first event data from a first monitoring connection system and second event data from a second monitoring connection system. The method also includes the fleet data system determining from the first event data and the second event data whether an event has occurred. The method further includes the fleet data system issuing an alert when the fleet data system has determined that the event has occurred, the alert including an event name, an event status, and a timestamp related to when the event occurred.

Abstract: A method of monitoring a plurality of turbomachines is disclosed herein. The method includes a fleet data system periodically receiving first event data from a first monitoring connection system and second event data from a second monitoring connection system. The method also includes the fleet data system storing the first event data and the second event data related to events that have occurred over a predetermined timeframe and sending at least the event data related to the events from the first event data to a monitoring device. The event data includes an event name, an event status, and a timestamp related to when the event occurred.

Abstract: A method of monitoring a gas turbine engine is disclosed herein. The method includes periodically receiving sensor data for the gas turbine engine at a monitoring device from a monitoring system server. The method also includes the monitoring device determining whether the tags for each group of a plurality of groups are in the sensor data and correlating the tags with the groups. The method further includes displaying one of the groups on an output display of the monitoring device including the tag name and the sensor value for each tag correlated with the group displayed.

Abstract: A system for monitoring a plurality of turbomachinery systems is disclosed herein. In embodiments, the system includes a network remote management tools module, and a plurality of monitoring devices. The network remote management tools module includes a diagnostic module and a management module. The diagnostic module monitors the operation of the plurality of turbomachinery systems and the system including the plurality of monitoring devices. The management module updates and maintains the system including the plurality of monitoring devices. A monitoring device of the plurality of monitoring device includes a device remote management module that manages the system through the network remote management tools module.

Abstract: A system for monitoring a plurality of turbomachinery systems is disclosed herein. In embodiments, the system includes a monitoring system data provider, a plurality of monitoring system servers, and a monitoring device. The monitoring system data provider periodically receives sensor data over a network from the plurality of turbomachinery systems and stores the sensor data in a monitoring system data store. The plurality of monitoring system servers connect to the monitoring system data provider and provide the sensor data for one of the turbomachinery systems to the monitoring device connected to a first monitoring system server of the plurality of monitoring system servers.

Abstract: The invention includes systems for and methods of performing quantum computation. The method of quantum computation includes preparing a set of one or more qubits capable of storing quantum information in 2n possible states, wherein the number of qubits n?1. The qubit set is subject to a decoherence mechanism that could cause a loss of quantum information stored in some but not all of the qubit states. The method also includes determining, via a quantum measurement of the qubit system or just by analyzing the decoherence of the qubit states, which of the 2n states or their superposition is/are not susceptible to decoherence. The method further includes encoding and processing quantum information in one or more of the decoherence-free states by controlling qubit-qubit interactions or via an electromagnetic interaction with the set of qubits.

Abstract: The invention provides a system and method for quantum computation comprising the steps of defining a Hilbert space to represent a physical quantum mechanical system; selecting a set of quantum observables for said system; selecting a subspace of said Hilbert space in which all states representing said quantum mechanical system have the same eigenvalue; and storing information in or processing information using said subspace. In addition, the invention provides a system and method for quantum computation, comprising defining a Hilbert space to represent a physical quantum mechanical system; selecting a subspace of said Hilbert space in which the quantum mechanical state of the physical system is decoherence free; and processing quantum information using the quantum mechanical system by controlling only multi body interactions.